List of the laboratories for special research students from partner universities

Information, computing and storage rsoureces can be shared all over the world by using the internet. Information resources in a remote locations and distributed information in widespread area can be used efficiently by utilizing network virtualization technique for signal processing algorithms. These algorithms have made it possible to reproduce high realistic information on demand by an ordinary handheld unit. Furthermore, information can be used safely and conveniently.

Lab for Human-Engaged Computing (LHEC)

Prof.
Xiangshi REN

Perceptual and cognitive brain information processing laboratory

Brain-Muscle Coordination Laboratory

Creative and Cultural Computing Laboratory

Assoc. Prof. Hiroki NISHINO

Game Informatics Laboratory

Assis. Prof.
ShogoTAKEUCHI

Non-equilibrium discharge plasma in which electron temperature easily exceeds several tens of thousands degrees exists everywhere, such as lightning in nature and discharge lamp. The matter in plasma phase is highly excited state and/or highly reactive condition inducing active chemical reactions and/or intense light emission. Plasma application technologies will be established through the studies on production and control of discharge plasma in atmospheric environment, in water, or in reactive gases, and analysis on fabricated thin films and reactive chemical species.

Laboratory of Advanced Energy Nanomaterials

Prof. Hiroshi FURUTA

Radiation Transfer Laboratory

Space and Earth Exploration Systems Laboratory

Prof. Masa-yuki YAMAMOTO

Optical Measurement and Engineering Laboratory

Assoc. Prof.　Shuji TAUE

Ubiquitous Imperceptible Electronics Laboratory

Assoc. Prof. Akihito NODA

Soft Intelligent System On Chip Laboratory

Assoc. Prof. Yukinobu HOSHINO

In animal development, cells divide and subsequently differentiate into diverse cell types in a spatio-temporally controlled manner, which results in formation of tissues and organs. Our group investigates the molecular basis underlying these processes by focusing on gene regulatory mechanisms. Our research utilizes Danio rerio, a small tropical fish known as zebrafish.

It is greatly attractive to create the desired thing at will. The organic synthesis realizes it at molecular level. Cyclic compounds including a nitrogen or an oxygen in the framework (heterocyclic compounds) are widely used as functional materials such as medicines, agrochemicals, and dyes. However, these compounds are often difficult to obtain easily, and sometimes are hitherto unknown. Our group studies development of facile and efficient synthetic methods for such compounds.

This laboratory focuses on the development and detailed characterization of light-absorbing and emitting materials, toward a variety of photochemical applications such as sensors, light-emitting diodes, dye-sensitized solar cells and artificial-photosynthesis systems.

Taking advantage of intermolecular interactions and chemical bonding, we are working to create novel functional nanomaterials composed of various combinations of organic materials, inorganic　materials, and macromolecules. In particular, by precisely controlling kinetics and equilibriums of chemical reactions in terms of physical chemistry, we can develop a new synthetic methodology for achieving beyond the range of conventional approaches. Through our innovations, we open up a new horizon and an opportunity for nanomaterial chemistry to contribute to next-generation energy production and technology. 　

For both structural and functional materials, microstructure is controlled at the micro-and-nano-levels. Microstructure control and microanalysis are closely intertwined, so development of microanalysis technique is also necessary. Through the microstructual control of nanomaterials and bulk samples, it is possible to develop unique multifunctionalities (mechanical, electronic, magnetic, thermoelectronic, energetic and catalytic).

Advanced devices and materials enable us to improve quality of life and environmental loading. In addition, device science is an essential to enhance material functionality. In this laboratory, wide variety of researches have been carried out from material to device science based semiconductor as core materials. Our aim is to improve the quality of life through advanced functional devices for information technology.

Our laboratory is devoted to advancing the data science of plant metabolomics for cosmetics and functional　food industries. While non-targeted phytochemical analysis is a promissing methodology for identifying　unknown compounds of metabolites, data generated from liquid chromatography/ high-resolution mass spectrometry contains thousands of detected compounds in a single sample. Therefore, we aim to develop a new metabolomics methodology that combines network analysis and machine learning.

This laboratory investigates control system for a variety of systems, particulary magnetic suspension, aerospace and robotics. In control technology, model expressions are used to formulate control strategies to get systems to achieve their intended purposes. This laboratory uses this approach to develop comprehensive control systems applying intelligent and optimal control, sensing technology, and mechanical technology.

The Urban and Transport Planning Lab contributes to the creation of sustainable urban and transport systems. We are committed to research and development towards the resolution of recent urban and transport issues. This work involves the collection and utilization of huge data sets obtained by monitoring real world phenomena. We aim to generate urban and transport innovation in response to low birth rate and aging population challenges.